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Radiology Physics & Imaging Technology

Radiology Physics is the backbone of safe, high-quality imaging. This comprehensive module is designed to take radiology residents from first-principle physics to advanced modality-specific applications, ensuring conceptual clarity, exam readiness, and real-world clinical confidence.

Course Instructor: Radnexa

₹15000.00 ₹20000.00 25% OFF

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Course Overview

Radiology Physics & Imaging Technology

Foundations to Advanced Concepts for Diagnostic Excellence

Module Overview

Radiology Physics is the backbone of safe, high-quality imaging. This comprehensive module is designed to take radiology residents from first-principle physics to advanced modality-specific applications, ensuring conceptual clarity, exam readiness, and real-world clinical confidence.

This course integrates core physics concepts, imaging system design, image formation, dose optimization, artifacts, quality assurance, and emerging technologies like AI and photon-counting CT, making it ideal for PG entrance exams, DNB/MD training, and day-to-day reporting practice.

What You Will Gain from This Module

  • Strong conceptual understanding of imaging physics

  • Ability to predict image quality & artifacts

  • Confident handling of radiation safety & regulations

  • Clear understanding of technology behind each modality

  • Exam-oriented preparation with clinical correlation

  • Readiness for advanced imaging & future technologies

Schedule of Classes

Course Curriculum

16 Subjects

Basic Physics & Atomic Structure

Physical quantities & units

Atomic structure & nomenclature

Nuclear stability & binding energy

Isomeric transition

Radiation Fundamentals

Electromagnetic, particulate & acoustic radiation

Wavelength, frequency & EM spectrum

Isotopes & periodic table relevance

X-Ray Production & Detection

Properties of X-rays

Scintillation & semiconductor detectors

X-ray circuits, generators & production

X-Ray Tube & Beam Modification

X-ray tube design

Filters, collimators & grids

Interaction of Radiation with Matter

Photoelectric effect

Compton scattering

Pair production

Conventional & Digital Radiography

Film-screen radiography

Computed radiography

Digital radiography & printing

Fluoroscopy, DSA & Dental Imaging

Fluoroscopy, C-arm, OPG

DSA principles

Tomography & Cone Beam CT

Mammography & Breast Imaging

Conventional & digital mammography

Contrast mammography

Advanced breast imaging

CT Physics: Basics to Advanced

CT generations

Image acquisition & reconstruction

Dual energy, photon-counting, 4D CT

Ultrasound & Doppler Imaging

USG principles & transducers

Doppler imaging

Contrast USG & HIFU

MRI Physics

MRI instrumentation

Image acquisition

Sequences & advanced applications

MRI safety & artifacts

Nuclear Medicine & PET

Radioactivity & radiopharmaceuticals

Gamma camera & scintigraphy

PET agents, detectors & mechanisms

DEXA

Radiation Biology & Safety

Dosimetry & occupational hazards

Biological effects & radiation syndromes

Monitoring devices

Regulatory Framework & QA

AERB, ICRP, PCPNDT, NABH, E-LORA

Quality assurance & department planning

Artifacts & Image Optimization

Artifacts in X-ray, CT, USG, MRI, PET/SPECT

Post-processing techniques

Detector technologies

Contrast Media & AI in Radiology

IV, MRI & USG contrast media

Physical principles & applications

Artificial Intelligence in radiology

Course Instructor

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Radnexa

17 Courses   •   2 Students